(nklr) - saw an interesting tent at americade

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skypilot110
Posts: 219
Joined: Thu Mar 30, 2017 7:12 am

(nklr) - saw an interesting tent at americade

Post by skypilot110 » Wed Jun 30, 2010 11:07 am

If you recall the conversation a few months ago, I have a nice tent, an ENS Eclipse2 which packs very small and light, but I recomend anybody who must ask for recomendations to go buy a cheap tent first to learn. I stand by that statement still. This is because everybody needs to learn what is important to them. That said I saw something very cool at Americade that I think offers something most other tents dont. Outright speed to set up. For those willing to spend $ for outright convienience and time saving read on. http://www.catomaoutdoor.com/ had three tents set up at the show. They looked about the same size as all the other millions of tents an in fact were about the same size folded up. They use a folding built in pole system that made them very easy to set up. I tried a few times and admit they go up way faster than I can set up my Eclipse. In fact I was able to duplicate their stated "60 second setup" easily. You can find smaller packed size and lighter weight if you go looking, that was important for me, but if you want speed then check out the motorcycle section of this companies site I'm not a customer. Just a camper who saw something interesting at the show!

Jeffrey
Posts: 367
Joined: Sat Oct 07, 2006 3:07 am

cleaning chain, lube (proof/references)

Post by Jeffrey » Wed Jun 30, 2010 12:54 pm

I posted this before but evidently some of you missed it and claimed I was pulling info out of thin air. The ATF fluids were less destructive with the two seal compounds at the temperatures investigated. The non-ATF fluid tended to extract unattached and un-bonded compounding ingredients from the rubber matrix. This leads to excessive shrinkage, increasing hardness, reduced lip flexibility, reduced interference and seal leakage. References (1.) L.R.G. Treloar, "Effect of network breakdown and reformation on the swelling of rubber in compression," Rubber Chem. & Tech., vol. 42, no. 2, p. 589 (1969). (2.) E. Southern and A.G. Thomas, "Diffusion of liquids in crosslinked rubber," Rubber Chem. & Tech., vol. 42, no. 2, p. 495 (1969). (3.) K. Ono, A. Kaeriyama and K. Murakami, "Effects of diffusion in oxidative degradation of vulcanized rubbers: I. Rate of chain scission scis sion n. 1. A separation, division, or splitting, as in fission. 2. See cleavage. in the steady state," Rubber Chem. & Tech., vol. 50, no. 1, p. 43 (1977). (4.) J.M. Bouvier Bouvier refers to several things: and M. Gelus, "Diffusion of heavy oil in a swelling elastomer," Rubber Chem. & Tech., vol. 59, no. 2, p. 233 (1986). (5.) H. Oikawa and K. Murakami, "Some comments on the swelling mechanism of rubber vulcanizates," Rubber Chem. & Tech., vol. 60, no. 4, p. 579 (1987). (6.) J.T. South, S.W. Case and K.L Reifsnider, "Effects of thermal aging on the mechanical properties of natural rubber," Rubber Chem. & Tech., vol. 76, no. 4, p. 785 (2003). (7.) F. Ignatz-Hoover, B.H. To, R.N. Datta, A.J. De Hoog, N.M. Huntink and A.G. Talma, "Chemical additive migration in rubber," Rubber Chem. & Tech., vol. 76, no. 3, p. 747 (2003). (8.) R.P. Campion campion: see pink. campion Any of the ornamental rock-garden or border plants that make up the genus Silene, of the pink family, consisting of about 500 species of herbaceous plants found throughout the world. , "Durability review of elastomers for severe fluid duties," Rubber Chem. & Tech., vol. 76, no. 3, p. 719(2003). (9.) Automotive Lubricants lubricants preparations for the lubrication of passages to reduce frictional injury, e.g. oily preparations, including petroleum jelly, lanolin or water-soluble preparations such as methyl cellulose. Reference Book, 2nd edition., ed. by R.F. Haycock and J.E. Hillier, p. 263, Society of Automotive Engineers SAE International (SAE) is a professional organization for mobility engineering professionals in aerospace, automotive and the commercial vehicle industries. The Society is a standards development organization for the engineering of powered vehicles of all kinds, including , SAE International, Warrendale, PA (2004). (10.) H. Ohtani, et al., "Oxidation stability of automatic transmission fluids," a study by the International Lubricants Standardization and Approval Committee (ILSAC ILSAC International Legal Services Advisory Council ILSAC International Lubricants Standardization and Approval Committee ) ATF Subcommittee, SAE Paper No. 2001-01-1991, Society of Automotive Engineers, Warrendale, PA (2001). (11.) E.J. Friihauf, "Automatic transmission fluids--some aspects of friction," SAE Paper No. 740051, Society of Automotive Engineers, Warrendale, PA (1974). (12.) R. Tourret and E.P. Wright, (eds.), "Performance and testing of gear oils and transmission fluids," Proceeding of the International Symposium of the Institute of Petroleum, (1980). (13.) R.F. Watts, et al., "The impact of evolving automatic transmission fluids on base oil selection," SAE Paper No. 2001-01-1992, Society of Automotive Engineers, Warrendale, PA (2001). (14.) H.E. Henderson and B. Swinney, "High quality base oil for next generation automatic transmission fluids," SAE Paper No. 982666, Society of Automotive Engineers, Warrendale, PA (1998). (15.) R.W. Miller, Lubricants and their Applications, McGraw Hill Inc., NY, 1993. (16.) SAE Fuels and Lubricants Standard Manuals, HS-23, Society of Automotive Engineers, Warrendale, PA (1997). (17.) J. Crank, Mathematics of Diffusion, Oxford Univ. Press, London, 1975. Table 1--single point viscosity (cp) of heated 7 fluids measured using Brookfield viscometer spindle #2 with guard at room temperature 15W40 Dexron Original viscosity 46.4 cp 11.89 cp 1,000 hrs. at 93[degrees]C 46.1 11.8 1,000 hrs. at 104[degrees]C 45.8 11.9 1,000 hrs. at 121[degrees]C 45.1 11.6 Average viscosity 45.67 11.77 Viscosity reduction 0.73 0.12 Vis. degradation. Index 0.02 0.01 (VDI) * * VDI = (initial value - final value)/initial value Figure 15--comparative physical characteristics of new seal and warranty seals exposed to non-ATF gear fluids (hardness data on case-1 missing) ID, lip load and IRHD hardness Spr. I.D. Spr. lip load IRHD hardness New seal 25.05 23.33 71.0 Case-1 26.49 17.48 Lip load Case-2 26.57 15.78 86.2 Case-3 26.45 15.02 88.3 Case-4 26.413 17.633 85.2 Note: Table made from bar graph. by Gabriel Osanaiye, TRW Automotive For other things named TRW, see TRW (disambiguation). On 12th December 12 2002, Northrop Grumman acquired TRW Inc. An 80.1% stake (later increased to more than 90%) in TRW Automotive Holdings, including the former LucasVarity Automotive, was spun off to ..... Click the link for more information. Jeffrey #3

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